A connecting module that includes a body to engage with a computing resource, a first lever having a first end pivotally coupled to a first side of the body, and a second lever having a first end pivotally coupled to a second side of the body, second ends of both levers being latched with a front side of the body. The connecting module includes an actuator disposed on the front side of the body to allow disengagement of the module from the computing resource upon actuation, and to unlatch the second ends of each of the first lever and the second lever from the front side of the body. The first lever and the second lever are manually deflected with respect to first ends to allow travel of the module in a direction inward and outward with respect to the computing resource.
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2. The connecting module according to claim 1, wherein each of the first interconnect part and the second interconnect part extend from the front side of the body along a width thereof.
A connecting module is designed for use in electronic devices, particularly for establishing electrical connections between components. The module includes a body with a front side and a first interconnect part and a second interconnect part extending from the front side along the width of the body. The first interconnect part is configured to connect to a first electronic component, while the second interconnect part is configured to connect to a second electronic component. The module facilitates electrical communication between the two components by providing a conductive path through the interconnect parts. The design ensures alignment and secure connection between the components, improving reliability in electronic assemblies. The interconnect parts may include conductive elements such as pins, pads, or traces that engage with corresponding interfaces on the electronic components. The module may also include features to enhance mechanical stability, such as locking mechanisms or alignment guides. This configuration is particularly useful in compact electronic devices where space efficiency and robust connections are critical.
3. The connecting module according to claim 2, wherein the first interconnect part and the second interconnect part are separated by a gap configured to receive a partition plate of the computing resource located between the first section of the computing resource and the second section of the computing resource.
This invention relates to a connecting module for a computing resource, particularly for systems where the computing resource is divided into multiple sections. The problem addressed is the need to securely and efficiently connect different sections of a computing resource while accommodating physical partitions between them. The connecting module includes a first interconnect part and a second interconnect part, which are separated by a gap. This gap is specifically designed to receive a partition plate of the computing resource, allowing the module to span across the partition without interference. The partition plate is positioned between the first and second sections of the computing resource, ensuring proper isolation or separation as required. The connecting module facilitates electrical, mechanical, or data connections between the sections while maintaining structural integrity and alignment. This design is particularly useful in modular computing systems, data centers, or other environments where physical barriers exist between interconnected components. The gap ensures compatibility with existing partition designs, simplifying integration and reducing the need for custom modifications. The invention enhances connectivity while preserving the functional separation of the computing resource sections.
4. The connecting module according to claim 3, wherein the partition plate comprises a first stopper, and wherein said second arm of said first lever defines a first cut-out, wherein a profile of the first cut-out is configured to pivotally engage with the first stopper, and wherein pivotal engagement between the profile of the first cut-out and the first stopper allows the travel of the connecting module in the direction inward and outward with respect to the computing resource upon deflection of the first lever.
This invention relates to a connecting module for a computing resource, such as a server or storage device, designed to facilitate secure and adjustable positioning within a rack or enclosure. The problem addressed is the need for a reliable mechanism that allows the module to be easily installed, removed, or adjusted while maintaining proper alignment and structural integrity. The connecting module includes a partition plate with a first stopper and a first lever having a second arm that defines a first cut-out. The profile of this cut-out is specifically shaped to pivotally engage with the first stopper. This engagement enables controlled movement of the connecting module in both inward and outward directions relative to the computing resource. When the first lever is deflected, the interaction between the cut-out and the stopper allows the module to slide smoothly, ensuring precise positioning without excessive force or misalignment. The design ensures that the module remains securely connected while allowing for adjustments, such as during installation, maintenance, or thermal expansion. The pivotal engagement between the cut-out and stopper provides a stable yet flexible connection, reducing wear and improving durability. This mechanism is particularly useful in high-density computing environments where frequent adjustments are necessary.
5. The connecting module according to claim 4, wherein the partition plate further comprises a second stopper, and wherein said second arm of said second lever defines a second cut-out, wherein a profile of the second cut-out is configured to pivotally engage with the second stopper, and wherein the pivotal engagement between the profile of the second cut-out and the second stopper allows the travel of the connecting module in the direction inward and outward with respect to the computing resource upon deflection of the second lever.
This invention relates to a connecting module for interfacing with a computing resource, such as a server or storage device, within a data center or similar environment. The module addresses the challenge of securely and adjustably connecting components while allowing controlled movement to accommodate thermal expansion, mechanical tolerances, or alignment adjustments. The connecting module includes a partition plate with a second stopper and a second lever having a second arm. The second arm defines a second cut-out with a profile designed to pivotally engage with the second stopper. This engagement enables the connecting module to move inward and outward relative to the computing resource when the second lever is deflected. The pivotal interaction between the second cut-out and the second stopper ensures stable yet flexible positioning, preventing excessive stress on connected components while maintaining secure connections. The second stopper and second cut-out work together to define a controlled range of motion, allowing the module to adapt to varying conditions without dislodging or damaging connections. This mechanism is particularly useful in environments where thermal cycling or mechanical vibrations could otherwise disrupt stable connections. The design ensures reliable operation while accommodating necessary adjustments.
6. The connecting module according to claim 1, wherein the rear side of the body comprises a plurality of connectors configured to connect with computing devices of the computing resource.
This invention relates to a connecting module for managing connections between computing devices and a computing resource. The module addresses the challenge of efficiently and securely interfacing multiple computing devices with a centralized resource, such as a server or data center, to facilitate data transfer, processing, or resource sharing. The connecting module includes a body with a front side and a rear side. The front side is designed to interface with the computing resource, enabling data exchange or control signals. The rear side features a plurality of connectors, each configured to connect with individual computing devices. These connectors may include standardized interfaces like USB, Ethernet, or proprietary ports, depending on the application. The connectors allow simultaneous connections to multiple devices, enabling parallel data transfer or resource allocation. The module may also include additional features such as power management, signal conditioning, or security protocols to ensure stable and secure communication between the computing resource and the connected devices. The design ensures scalability, allowing expansion by adding more connectors as needed. This solution simplifies system integration, reduces cabling complexity, and enhances performance in environments requiring high-speed, multi-device connectivity.
8. The connecting module according to claim 7, wherein a first leaf spring is configured to apply a biasing force on the first lever in a latched condition of the first lever and a second leaf spring configured to apply a biasing force on the second lever in a latched condition of the second lever.
This invention relates to a connecting module for a vehicle seat, specifically addressing the need for secure and adjustable latching mechanisms in seat structures. The module includes a housing with a first lever and a second lever, each pivotally mounted to the housing. The first lever is configured to engage with a first locking element, while the second lever engages with a second locking element. The levers are designed to move between latched and unlatched positions, allowing the seat to be secured or released from a fixed position. The first lever includes a first leaf spring that applies a biasing force to maintain the lever in its latched condition, ensuring stability when the seat is locked. Similarly, the second lever includes a second leaf spring that applies a biasing force to keep it in its latched state. These springs provide consistent pressure to prevent unintended disengagement, enhancing safety and reliability. The module may also include a release mechanism to simultaneously disengage both levers, allowing for quick and controlled adjustment of the seat position. The design ensures robust locking while permitting easy manual operation when needed.
9. The connecting module according to claim 7, wherein the first lever and the second lever are latched to the front side of the body via a snap lock.
This invention relates to a connecting module for securing components, particularly in modular or adjustable systems. The problem addressed is the need for a reliable, user-friendly mechanism to attach and detach components without tools, while ensuring stability and ease of use. The connecting module includes a body with a front side and a rear side, and at least one lever pivotally connected to the body. The lever is movable between an open position and a closed position to engage or disengage a component. In this specific embodiment, the module features a first lever and a second lever, both latched to the front side of the body via a snap lock mechanism. The snap lock ensures secure attachment while allowing quick release when needed. The levers may be spring-loaded or biased to maintain engagement, and the snap lock may include interlocking features such as protrusions, recesses, or flexible tabs that engage under pressure and release with a deliberate action. This design simplifies assembly and disassembly, making it suitable for applications like furniture, shelving, or modular structures where frequent adjustments are required. The snap lock enhances durability and reduces wear compared to traditional fastening methods.
10. The connecting module according to claim 1, wherein each of the first lever and the second lever is configured to pivotally deflect about said respective first ends thereof with a covered angle in a range of about 30 degrees to about 50 degrees.
This invention relates to a connecting module for mechanical systems, particularly for applications requiring controlled pivotal deflection between components. The problem addressed is the need for a reliable and adjustable connection that allows limited angular movement while maintaining structural integrity and precise control over deflection angles. The connecting module includes a first lever and a second lever, each pivotally connected at their respective first ends to a base structure. The levers are configured to pivotally deflect within a specified angular range, ensuring controlled movement between connected components. The pivotal deflection occurs about the first ends of the levers, with each lever capable of rotating within a covered angle range of approximately 30 degrees to 50 degrees. This range provides a balance between flexibility and stability, allowing the module to accommodate varying loads and movement requirements while preventing excessive deflection that could compromise system performance. The design ensures that the levers remain within the defined angular limits during operation, which is critical for applications where precise movement control is necessary, such as in robotic systems, mechanical linkages, or adjustable support structures. The module may also include additional features, such as damping mechanisms or locking elements, to further enhance performance and reliability. The specified deflection range ensures that the module operates within safe and predictable limits, reducing the risk of mechanical failure or unintended movement.
11. The connecting module according to claim 1, wherein each of the first lever and the second lever is configured to pivotally deflect about said respective first ends thereof with a covered angle in a range of about 35 degrees to about 45 degrees.
This invention relates to a connecting module for mechanical systems, particularly for applications requiring controlled pivotal deflection between components. The problem addressed is the need for a reliable and precise pivoting mechanism that allows a specific range of angular movement while maintaining structural integrity and operational stability. The connecting module includes a first lever and a second lever, each pivotally connected at their respective first ends. The levers are designed to deflect within a defined angular range, specifically between approximately 35 degrees and 45 degrees. This controlled deflection ensures that the module can accommodate varying loads and forces while preventing excessive movement that could lead to mechanical failure or instability. The pivoting action is critical for applications such as linkages, suspension systems, or adjustable support structures where precise angular control is essential. The module may also incorporate additional features, such as biasing elements or locking mechanisms, to further enhance stability and adjustability. The design ensures that the levers remain within the specified angular range during operation, providing consistent performance and durability. The invention is particularly useful in environments where controlled motion and load distribution are required, such as in automotive, aerospace, or industrial machinery applications. The specified deflection range balances flexibility and rigidity, making the module suitable for a wide range of dynamic loading conditions.
12. The connecting module according to claim 1, wherein the travel of the connecting module is in a range of about 2.5 mm to about 4 mm.
This invention relates to a connecting module for mechanical systems, particularly for applications requiring precise linear motion. The module addresses the challenge of achieving controlled movement within a compact space, ensuring reliable operation in environments where space constraints and precision are critical. The connecting module includes a housing and a movable element that translates linearly within the housing. The module is designed to interface with other mechanical components, such as actuators or sensors, to facilitate controlled motion. The movable element is constrained to move along a defined path, ensuring smooth and repeatable operation. The module may incorporate features such as guides, bearings, or seals to enhance stability and durability. A key aspect of the invention is the specified travel range of the connecting module, which is between approximately 2.5 mm and 4 mm. This range is optimized for applications where precise, short-stroke motion is required, such as in micro-positioning systems, medical devices, or industrial automation. The travel range ensures compatibility with compact designs while maintaining sufficient stroke length for functional operation. The module may also include additional features, such as locking mechanisms to secure the movable element in a desired position or sensors to monitor movement. These enhancements improve functionality and reliability in demanding environments. The overall design prioritizes efficiency, durability, and precision, making it suitable for a wide range of industrial and technical applications.
14. The method according to claim 13, further comprising pivotally engaging a profile of a first cut-out with a first stopper, wherein the first cut-out is defined in a second arm of the first lever and the first stopper is located on a partition plate of the computing resource.
This invention relates to mechanical engagement mechanisms for computing resources, specifically addressing the need for secure and adjustable positioning of components within a computing device. The method involves pivotally engaging a profile of a first cut-out with a first stopper to facilitate precise alignment and stabilization of a first lever within the computing device. The first cut-out is defined in a second arm of the first lever, while the first stopper is located on a partition plate of the computing resource. This engagement ensures proper mechanical interaction between the lever and the computing resource, enhancing structural integrity and operational reliability. The method may also include additional steps such as pivotally engaging a second cut-out with a second stopper, where the second cut-out is defined in a first arm of the first lever and the second stopper is located on a housing of the computing resource. This dual engagement mechanism provides further stability and alignment, ensuring consistent performance of the computing resource. The invention is particularly useful in environments where precise mechanical positioning is critical for optimal functionality and durability.
15. The method according to claim 14, further comprising pivotally engaging a profile of a second cut-out with a second stopper, wherein the second cut-out is defined in a second arm of the second lever and the second stopper is located on the partition plate of the computing resource.
This invention relates to a mechanical linkage system for computing resource management, specifically addressing the need for precise and adjustable positioning of components within a computing device. The system includes a first lever with a first arm and a second arm, where the first arm is pivotally connected to a computing resource, and the second arm has a first cut-out that engages with a first stopper on a partition plate. This engagement controls the movement of the computing resource relative to the partition plate. The second arm of the first lever is also pivotally connected to a second lever, which has its own second arm with a second cut-out. This second cut-out engages with a second stopper on the partition plate, further refining the positioning and stability of the computing resource. The interaction between the cut-outs and stoppers ensures controlled and adjustable movement, preventing over-extension or misalignment of the computing resource within the device. The system enhances mechanical stability and precision in computing resource positioning, improving overall device functionality and durability.
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January 25, 2022
June 4, 2024
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